This project is a superbuild project for mc_rtc and related projects.
It will build all mc_rtc dependencies, mc_rtc itself and downstream projects. You can also extend the project locally or clone extensions to build your own projects.
- CMake >= 3.20
- Git
- Visual Studio 2019 and later (Windows)
You can fullfill the requirements above by invoking our bootstraping script:
git clone https://github.com/mc-rtc/mc-rtc-superbuild
- on Debian like distributions:
./mc-rtc-superbuild/utils/bootstrap-linux.sh
- on macOS:
./mc-rtc-superbuild/utils/bootstrap-macos.sh
First, make sure you have configured git
:
git config --global user.name "Full Name"
git config --global user.email "your.email@provider.com"
Then configure and run the superbuild as follows:
# Run the bootstrap script in mc-rtc-superbuild/utils folder if required
cmake -S mc-rtc-superbuild -B mc-rtc-superbuild/build -DSOURCE_DESTINATION=${HOME}/devel/src -DBUILD_DESTINATION=${HOME}/devel/build
cmake --build mc-rtc-superbuild/build --config RelWithDebInfo
This will:
- Install all required system dependencies
- Create a meta-repository at
SOURCE_DESTINATION
(the folder must be empty or already created by another superbuild instance) - Add Git submodules for each of the projects in the meta-repository
- Build each project in the
${BUILD_DESTINATION}/${PROJECT}
folder and install it in the provided${CMAKE_INSTALL_PREFIX}
You can then use the projects that were built and cloned by the superbuild as you would use projects you built and clone yourself. If you modify some projects, the superbuild will pick up on it and rebuild its dependents.
On Linux and macOS, all commands of the form cmake --build ${FOLDER} --config RelWithDebInfo --target ${TARGET}
can also be run by make ${TARGET}
in ${FOLDER}
. In particular, you can start a build by simply doing make
in the build folder.
You should avoid running something like make -jN
. This will build up to N
projects in parallel but each project will run its own parallelized build and that will likely be too much for your machine RAM or CPU.
If you want to clone everything before attempting the first build you can use the clone
target:
git clone https://github.com/mc-rtc/mc-rtc-superbuild
cmake -S mc-rtc-superbuild -B mc-rtc-superbuild/build -DSOURCE_DESTINATION=${HOME}/devel/src -DBUILD_DESTINATION=${HOME}/devel/build
cd mc-rtc-superbuild/build
cmake --build . --config RelWithDebInfo --target clone
cmake --build . --config RelWithDebInfo
You can run the update
target to pull all the projects:
cmake --build . --config RelWithDebInfo --target update
Or invididually pull some of the projects and their dependencies:
cmake --build . --config RelWithDebInfo --target update-mc_rtc
You can run the self-update
target to update mc-rtc-superbuild and all the cloned extensions:
cmake --build . --config RelWithDebInfo --target self-update
You can run the uninstall
target to uninstall all the projects at once:
cmake --build . --target uninstall
It might require sudo
if you install to a non-writable prefix (e.g. /usr/local
)
You cam also uninstall a specific project:
cmake --build . --target uninstall-mc_rtc
You can add extensions to the superbuild system by cloning extensions projects into the extensions
folder, see for example the lipm-walking-controller-superbuild for an example centered around a single project.
cd mc-rtc-superbuild/extensions
git clone https://github.com/mc-rtc/lipm-walking-controller-superbuild
cd ../build/
# Will build mc_rtc and then the lipm-walking-controller project and its dependencies
cmake --build . --config RelWithDebInfo
You can also check out superbuild-extensions for commonly availabe extensions. Please refer to this repository for usage instructions.
The following CMake options can be passed:
Options | Default | Description |
---|---|---|
WITH_ROS_SUPPORT |
ON (Linux)OFF (others) |
Build mc_rtc with the ROS plugin, install ROS if necessary |
WITH_LSSOL |
OFF |
Enable the LSSOL QP solver, you must have access to the eigen-lssol package |
INSTALL_DOCUMENTATION |
OFF |
Generate and install projects documentation on your local machine |
MC_RTC_SUPERBUILD_VERBOSE |
OFF |
Output more information about the build actions |
VERBOSE_TEST_OUTPUT |
OFF |
Output more information during testing |
MC_RTC_SUPERBUILD_SET_ENVIRONMENT |
ON |
(Windows only) Changes the PATH variable |
BUILD_BENCHMARKS |
OFF |
Build mc_rtc benchmarks |
INSTALL_SYSTEM_DEPENDENCIES |
ON |
Install system-level dependencies, do not disable unless you known these requirements are fullfilled |
PYTHON_BINDING |
ON |
Build mc_rtc Python bindings |
PYTHON_BINDING_USER_INSTALL |
ON (Windows)OFF (others) |
Install the Python bindings in user space |
PYTHON_BINDING_FORCE_PYTHON2 |
OFF |
Force usage of python2 instead of python |
PYTHON_BINDING_FORCE_PYTHON3 |
OFF |
Force usage of python3 instead of python |
PYTHON_BINDING_BUILD_PYTHON2_AND_PYTHON3 |
OFF |
Build Python 2 and Python 3 bindings |
SOURCE_DESTINATION |
If defined, projects will be cloned into this folder otherwise the src sub-folder in the superproject build directory is chosen |
|
BUILD_DESTINATION |
If defined, projects will be build in this folder otherwise the build sub-folder in the superproject build directory is chosen |
|
LINK_BUILD_AND_SRC |
ON |
Create a build symbolic link to the build folder in the source folder and a to-src symbolic link to the source folder in the build folder |
BUILD_LINK_SUFFIX |
If defined, this is happened to the build symbolic link created by LINK_BUILD_AND_SRC |
|
LINK_COMPILE_COMMANDS |
ON |
Create a symbolic link to the compile_commands.json file generated by CMake inside the source folder |
USE_MC_RTC_APT_MIRROR |
OFF |
Use mc_rtc apt mirror to install some projects (only available on Ubuntu LTS) |
USE_MC_RTC_APT_MIRROR_STABLE |
OFF |
Use the stable mirror rather than the head mirror |
You can:
- Add new
AddProject
declaration to the mainCMakeLists.txt
of this repository (look forPERSONAL_PROJECTS
in that file to find the correct location) - Create a new extension under the
extensions
folder:
mkdir -p extensions/local
editor extensions/local/CMakeLists.txt
- Create a simple
.cmake
under theextensions
folder with your projects:
touch extensions/local.cmake
editor extensions/local.cmake
The remainder is an introduction of the functions offered by superbuild to specify your own project.
AddProject
specifies a new project, here is a simple example:
AddProject(lipm_walking_controller
GITHUB mehdi-benallegue/lipm_walking_controller
GIT_TAG origin/rebase_stabilizer_ana
DEPENDS copra mc_state_observation mc_plugin_footstep_plan_msgs
)
Here:
GITHUB
is a git source (seeAddGitSource
for available options and how to extend them)GIT_TAG
is the branch or tag that we use for this repository. It defaults toorigin/main
. WhenGIT_TAG
starts withorigin/
it is interpreted as a branch otherwise it is interpreted as a tagDEPENDS
are other projects that are depended upon
Other options for AddProject
are:
SUBFOLDER <folder>
: clone the repository in a subfolder ofSOURCE_DESTINATION
CLONE_ONLY
: do not perform any build step, only clone the repositorySKIP_TEST
: do not run or build unit testsNO_NINJA
: use CMake's default generator rather than ninjaNO_SOURCE_MONITOR
: disable source monitoring. By default, superbuild will monitor the source folder to force the rebuild of packages and their dependents when change happens. Some projects systematically trigger rebuilds under this monitor and this option disable it. Rebuilds then have to be triggered manually via theforce-${NAME}
target.SKIP_SYMBOLIC_LINKS
: disable the creation of symbolic links. By default, on supported platforms, superbuild creates a link between the source folder and the build folder as well as a link from the source folder to the CMake's generatedcompile_commands.json
. This option disables the behavior.INSTALL_PREFIX
: override the providedCMAKE_INSTALL_PREFIX
For advanced usage, other options supported by ExternalProject_Add are also supported by AddProject
.
In particular, CMAKE_ARGS
, CONFIGURE_COMMAND
, BUILD_COMMAND
and INSTALL_COMMAND
can be used to control the build.
** CreateCatkinWorkspace(ID <id> DIR <dir> {CATKIN_MAKE|CATKIN_BUILD} [CATKIN_BUILD_ARGS <args>...])
**
Declare a catkin workspace:
<id>
must be unique throughout the superbuild and its extensions<dir>
is a directory (relative toSOURCE_DESTINATION
) where the workspace is createdCATKIN_MAKE
/CATKIN_BUILD
whether to build the workspace withcatkin_make
orcatkin build
<args>
are passed as build arguments tocatkin build
when it is used
** AddCatkinProject(<name> WORKSPACE <id> [<options>]...)
Adds a catkin project into the provided workspace. The git repository is provided through the same way as with AddProject
.
If WITH_ROS_SUPPORT
is OFF
then this is treated like AddProject
** AddPackageToCatkinSkiplist(<id> <package>)
Adds the given package to the catkin build's skiplist
** AddGitSource(<id> <uri>)
**
Adds a new git source to superbuild:
<id>
unique id that can be used in subsequentAddProject
commands<uri>
corresponding Git URI (such that repository stubs can be appended to form full URIs)
superbuild knows the following source:
GITHUB
which ishttps://github.com/
GITHUB_PRIVATE
which isgit@github.com:
GITE
which isgit@gite.lirmm.fr:
GIT_REPOSITORY
which is empty, allowing one to put arbitrary fully qualified Git URI
** AddProjectPlugin(<name> <project> [SUBFOLDER <folder>] [LINK_NAME <name>] [<options>]...)
**
Clone the project inside the provided SUBFOLDER
of <project>
. Other options are passed to AddProject
but CLONE_ONLY
is always enabled.
By default, the project is cloned in an hidden folder (due to submodule limitations) and linked inside the specified project's source directory as ${SUBFOLDER}/${NAME}
. LINK_NAME
can override this behavior and create the link to ${SUBFOLDER}/${LINK_NAME}
.
** AptInstall(<package> ...)
**
Wrapper around the apt
command to install system packages. The function does nothing on non-Debian-based systems. Otherwise it installs the provided packages that are missing.
The packages specified by calling these commands will be installed together at the end of the configuration process. If the packages are required immediately you can use AptInstallNow
.
RequireExtension(FOLDER ...)
This allows an extension to require another extension and make sure this extension is included before the one being processed.
Supported arguments are the one of FetchContent_Declare